The evolution of orthopaedic medicine in recent years has been remarkably similar to that of other surgical specialties: a shift away from inflexible techniques toward approaches that complement the body’s natural healing cycles. Dynamic Hip Screw (DHS) surgery is a particularly good example of this trend.

Through the combination of human biology and precision engineering, DHS surgery provides a very clear path to a safer and quicker recovery from hip fractures. This invention, which embraces controlled dynamic movement in contrast to conventional rigid plates, significantly improves outcomes for countless patients.
Attribute | Details |
---|
Surgical Name | Dynamic Hip Screw (DHS) Surgery |
Also Known As | Sliding Screw Fixation; Pin and Plate Surgery |
Primary Use | Treatment of undisplaced or minimally displaced femoral neck fractures (Garden I & II) |
Key Components | Lag screw, side plate, cortical screws |
Surgical Objective | Controlled dynamic compression for primary bone healing |
Common Complications | Infection, hematoma, implant failure, avascular necrosis |
Historical Context | Created to replace angled blade plates for better compression and lower failure rates |
Guidelines Endorsement | Recommended by NICE for certain trochanteric fractures |
Reference Website | NICE – Hip Fracture Management |
Rethinking Bone Healing: Dynamic Hip Screws’ Ingenuity
Orthopaedic surgeons struggled with fixed-angle blade plates before the DHS was developed. Although revolutionary at the time, these plates did not take into consideration the dynamic forces necessary for actual bone healing. Unfortunately, extended recoveries, re-fractures, and non-unions were all very common.
DHS surgery successfully mimics the body’s own extraordinary capacity for stress-induced healing by implementing a sliding mechanism that actively encourages compression across the fracture site. This innovation promotes a stable yet flexible healing process, much like tensioned cables stabilize a bridge while permitting micro-movements.
A Very Effective System Made for Moving Life
Fundamentally, DHS surgery uses a carefully designed trio: a strong lag screw buried into the femoral neck, a side plate for extra security, and a number of cortical screws that securely fasten the structure. The implant greatly lowers stress concentration by permitting longitudinal sliding at the fracture site, promoting strong bone regeneration without needless remodeling.
For older patients, whose osteoporotic bones necessitate techniques that honor natural biomechanics rather than enforcing artificial rigidity, this method is especially advantageous.
Faster Recovery, Fewer Setbacks: DHS Surgery’s Promise
Clinical results have continuously confirmed the benefits of the DHS technique over the last ten years. Compared to earlier techniques, patients not only recover noticeably faster but also have noticeably fewer complications. When protocols are closely adhered to, infection risks remain exceptionally low, and the overall rate of implant failures hovers reassuringly below 2%.
DHS surgery stands out as a brilliant example of healthcare innovation aimed at restoring not just mobility—but dignity—as quickly as possible by expediting healing and lowering hospital stays.
The Reasons DHS Is Still the Best in Contemporary Orthopaedic Surgery
Few advancements in orthopaedics have had the same long-lasting effect as the dynamic hip screw. For some trochanteric fractures, NICE guidelines still recommend DHS use rather than intramedullary nails, pointing to especially better patient outcomes and lower rates of complications.
DHS implants, in contrast to larger intramedullary devices, function externally, conforming more naturally to the structure of the body and providing surprisingly economical and efficient recuperation options for healthcare systems worldwide.